Interpretable Diffusion-Based Image Stylization Through Disentangled Content, Texture, and Color Representations

Authors

  • Bimala Dave Department of Computer Science, University of New Hampshire, Durham, NH, USA. Author

Keywords:

interpretable diffusion; image stylization; disentangled representations; content texture color; model governance; sustainable deployment; fairness; socio-technical systems

Abstract

Diffusion-based image stylization has become a central technique for transforming visual content while preserving semantic structure, yet its internal representations remain difficult to inspect, govern, and deploy responsibly at scale. This paper argues that disentangling content, texture, and color representations offers a practical pathway toward interpretable diffusion-based stylization without reducing generative quality. Rather than treating stylization as a monolithic transfer operation, the proposed perspective separates semantic layout, surface appearance, and chromatic distribution into partially independent conditioning pathways that can be diagnosed, audited, and adjusted. The paper develops a system-level architecture that combines diffusion backbones, latent encoders, attention mechanisms, and modular conditioning interfaces. It then examines the structural trade-offs between interpretability and fidelity, controllability and generative diversity, modularity and computational efficiency, and personalization and privacy. The discussion extends into governance, infrastructure, sustainability, robustness, fairness, and policy. Disentangled representations are shown to support model cards, datasheets, provenance tracking, and human-in-the-loop correction, but they also introduce new risks related to representation leakage, uneven performance across cultural visual domains, and hidden technical debt. The paper concludes that interpretable stylization should be treated as a socio-technical infrastructure problem rather than a purely model-centric research problem. A research agenda is outlined for evaluation standards, edge-cloud deployment, carbon-aware scheduling, participatory dataset design, and policy mechanisms that align creative expression with accountability.

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Published

2026-10-10

How to Cite

Interpretable Diffusion-Based Image Stylization Through Disentangled Content, Texture, and Color Representations. (2026). International Journal of Artificial Intelligence Engineering and Systems, 1(2). https://ijaies.org/index.php/home/article/view/209